Cycling cadence is the number of complete pedal revolutions you make each minute. It is measured in revolutions per minute, or RPM, and it influences how a given power output is shared between muscular force and pedalling speed.
Many cyclists are told that 90 RPM is the ideal cadence. In reality, there is no single number that works for every rider, terrain or training intensity. Your most suitable cadence depends on your power output, gearing, experience, fatigue, bike position and individual physiology.
Most recreational cyclists and triathletes will complete much of their steady riding somewhere around 80–95 RPM. This is a practical range rather than a strict target.
Lower cadences place more force through each pedal stroke, while higher cadences reduce force per stroke but require your legs to move more quickly. The best cadence is normally the one that feels smooth, remains sustainable and allows you to produce the required power without excessive muscular or cardiovascular strain.
What Is Cycling Cadence?
Cycling cadence describes how quickly the cranks rotate. One complete revolution of either crank counts as one pedal revolution.
If your bike computer displays 90 RPM, each crank is completing 90 full revolutions every minute. Your feet are therefore passing the top of the pedal stroke approximately once every two-thirds of a second.
Cadence is not the same as speed or power. You can ride at 90 RPM while producing 100 watts or 300 watts. The difference comes from the selected gear and the amount of force applied to the pedals.
Cycling cadence is the rate at which you turn the pedals, expressed as complete crank revolutions per minute.
What RPM Should You Ride At?
For most general road cycling and triathlon training, a natural cadence between approximately 80 and 95 RPM is a sensible starting point. Some riders feel better slightly below this range, while others naturally prefer to pedal above it.
Cadence should also change with the situation. A steep climb may force your cadence lower, while a sprint or short acceleration may take it well above 100 RPM.
| Riding situation | Practical cadence range | Main consideration |
|---|---|---|
| Easy recovery ride | Approximately 80–95 RPM | Relaxed, smooth pedalling without unnecessary resistance |
| Zone 2 endurance ride | Approximately 80–95 RPM | A sustainable rhythm that limits muscular fatigue |
| Tempo or threshold riding | Approximately 85–100 RPM | Use the cadence that supports stable power and controlled breathing |
| Long-course triathlon | Often approximately 80–95 RPM | Balance cardiovascular demand with muscular durability |
| Moderate seated climb | Approximately 70–90 RPM | Select an easier gear before cadence falls excessively |
| Very steep climb | May fall to 60–80 RPM | Gearing and gradient may limit available cadence |
| Short acceleration or sprint | Often above 100 RPM | High cadence becomes necessary as speed and power increase |
| Low-cadence training interval | Approximately 50–70 RPM | Intentional muscular training rather than normal all-day cadence |
These ranges are practical examples rather than mandatory targets. Your preferred cadence may sit outside them without being incorrect.
Do not force yourself to hold exactly 90 RPM throughout every ride. Cadence should respond naturally to power, gradient, gearing and fatigue.
How Cadence, Power and Gearing Work Together
The same power can be produced using different combinations of cadence and pedal force.
At a lower cadence, you must apply more force during each pedal stroke to maintain the same power. At a higher cadence, each individual pedal stroke requires less force, but you complete more pedal strokes every minute.
More force per revolution
A harder gear and slower pedal speed increase the muscular demand of each pedal stroke.
More revolutions per minute
An easier gear reduces force per stroke but requires faster leg movement and may increase cardiovascular demand.
Low cadence + harder gear = greater force per pedal stroke
High cadence + easier gear = lower force per pedal stroke but more pedal strokes
Example at the same power
Imagine two cyclists both producing 200 watts:
Slower and heavier
The rider turns a harder gear and applies relatively more force during each pedal stroke.
Faster and lighter
The rider completes more revolutions but applies less force during each individual stroke.
Neither option changes the average external power. What changes is how the workload feels and how it is distributed between muscular force and movement speed.
Low Cadence vs High Cadence
A lower cadence is not automatically inefficient, and a higher cadence is not automatically more advanced. Each creates a different combination of muscular, cardiovascular and coordination demands.
| Characteristic | Lower cadence | Higher cadence |
|---|---|---|
| Pedal force | Higher force per stroke | Lower force per stroke |
| Leg movement | Slower | Faster |
| Muscular sensation | Often feels heavier | Often feels lighter |
| Cardiovascular demand | May be lower at the same submaximal power | May increase as cadence rises |
| Muscular fatigue | Can accumulate more quickly at high force | Can be reduced when force per stroke falls |
| Coordination demand | Relatively simple at moderate levels | Requires greater neuromuscular control |
| Typical use | Climbing, strength-endurance work and large gears | Fast riding, racing, accelerations and cadence drills |
Advantages of lower cadence
- Can feel controlled during climbing.
- May reduce breathing and heart rate at the same moderate power.
- Can be used deliberately for muscular endurance training.
- Requires less rapid coordination.
- May feel natural for larger or more strength-oriented riders.
Disadvantages of excessively low cadence
- Requires greater force during each pedal stroke.
- Can create rapid local muscular fatigue.
- May make accelerations more difficult.
- Can place more strain on the legs when power is high.
- May indicate that your gearing is too difficult for the terrain.
Advantages of higher cadence
- Reduces the force required during each individual pedal stroke.
- Can make it easier to respond to changes in speed.
- Supports high power when sprinting or racing quickly.
- May reduce local muscular loading during long rides.
- Develops coordination at faster pedalling speeds.
Disadvantages of excessively high cadence
- Can raise oxygen use and heart rate unnecessarily.
- May cause bouncing in the saddle.
- Can feel unstable or uncoordinated.
- May waste energy when the cadence is far above your natural range.
- Can make power control more difficult for inexperienced cyclists.
Why the Best Cadence Varies Between Cyclists
Cyclists do not all select the same cadence, even when riding at the same power. Your natural preference is influenced by several interacting factors.
Power output
Higher power normally requires either greater pedal force, a higher cadence or a combination of both.
Training history
Experienced cyclists normally develop better coordination and comfort across a wider cadence range.
Muscular strength
Strength-oriented riders may tolerate greater pedal force, while others prefer to reduce force through faster pedalling.
Terrain
Gradient, road surface and changes in speed affect which gears and cadences are practical.
Fatigue
Preferred cadence may gradually decrease as neuromuscular and cardiovascular fatigue accumulate.
Bike position
Saddle height, crank length, aerodynamic position and general bike fit can change how different cadences feel.
This is why copying a professional cyclist’s cadence is rarely useful. Professional riders produce much greater power and have spent years adapting to high-speed pedalling.
Cadence for Different Training Intensities
Cadence should not be considered separately from power. A cadence that feels smooth during an easy recovery ride may feel completely different during a threshold interval.
Recovery and easy riding
Use a comfortable gear that allows your legs to turn freely without meaningful muscular strain. For many riders, this falls around 80–95 RPM.
Avoid turning an easy session into hidden strength training by selecting a very hard gear and grinding at low cadence.
Zone 2 endurance riding
Your endurance cadence should feel natural enough to maintain for several hours. Most cyclists will settle somewhere around 80–95 RPM, although a stable cadence in the upper 70s may be completely appropriate for some riders.
Learn how to control endurance intensity in our guide to Zone 2 cycling.
Tempo and sweet spot
Tempo and sweet spot riding create more power and muscular demand than Zone 2. A cadence around 85–95 RPM is common, but you may benefit from occasionally performing controlled intervals at both lower and higher cadences.
Threshold intervals
During threshold work, choose a cadence that allows you to maintain power without excessive muscular loading or uncontrolled breathing. Many riders naturally settle around 85–100 RPM.
Do not change cadence merely to make the power number look smoother. A stable rhythm that can be maintained throughout the interval is more important.
VO2 max intervals
Higher-intensity intervals often produce a naturally higher cadence. Riding around 95–110 RPM may help reduce the force demanded from each pedal stroke, although forcing an unfamiliar cadence can reduce power.
Sprinting
Sprint power depends on both pedal force and cadence. As the bike accelerates, cadence rises until the rider can no longer apply enough useful force at the increasing pedal speed.
Sprint cadence can exceed 120 RPM, but this is a specialised maximal effort rather than a normal endurance target.
A cadence number only becomes meaningful when it is considered alongside power, duration, gradient and perceived exertion.
What Cadence Should Triathletes Use?
Triathletes must consider both bike performance and the run that follows. The aim is not simply to choose the cadence that feels easiest during the first half of the bike leg.
A cadence around 80–95 RPM works well for many age-group triathletes because it avoids extremely high pedal force without creating unnecessary cardiovascular demand. However, the ideal number remains individual.
Avoid excessive grinding
A moderate cadence can reduce the force required during each pedal stroke and may help preserve local muscular endurance.
Do not spin artificially fast
A cadence far above your natural range can increase cardiovascular demand and may leave you unnecessarily fatigued.
Does a higher cycling cadence improve the run?
Research has produced mixed results. Some athletes feel that a slightly faster cadence helps their legs transition into running, while others run better after cycling at a lower or self-selected cadence.
Bike intensity, total energy expenditure, position, fuelling and pacing are likely to matter more than finding one universally correct pre-run cadence.
Use a cadence that supports sustainable race power and leaves your legs capable of running. Test it in brick sessions instead of relying on a generic target.
Cadence during the final bike kilometres
Some triathletes increase cadence slightly during the final minutes of the bike leg while reducing power. This can serve as a transition drill, but it should not become a frantic spin that raises heart rate immediately before running.
A practical approach is to remain near your normal cadence and gradually reduce muscular pressure as you approach transition.
What Cadence Should You Use When Climbing?
Cadence normally decreases on climbs because gravity increases the resistance that must be overcome. The steeper the road becomes, the more important gearing becomes.
On a moderate climb, many cyclists remain comfortable around 70–90 RPM. On very steep gradients, cadence may fall below this range even in the easiest available gear.
Shift before the gradient increases
Select an easier gear before cadence falls sharply. Shifting under maximum pedal pressure can be slower and less reliable.
Keep the upper body controlled
Excessive rocking often indicates that the gear is too difficult or the power is unsustainable.
Allow cadence to fall naturally
You do not need to maintain your flat-road cadence on every climb. A moderate reduction is normal.
Avoid repeated high-torque surges
Shift early and control power rather than attacking every change in gradient with a heavy gear.
If every climb forces you below approximately 50–60 RPM, your easiest gear may be too difficult for your fitness, body weight or local terrain.
Seated or standing?
Standing can provide temporary relief, change muscle recruitment and help during short steep sections. It also normally increases energy expenditure and can create power spikes.
During long-course triathlon, remaining seated for most climbing is often the more sustainable approach. Short periods of standing can still relieve pressure and maintain comfort.
Indoor vs Outdoor Cadence
Your cadence may differ between indoor and outdoor riding. On a trainer, there are no descents, corners or natural interruptions, so pedalling is usually more continuous.
Controlled and continuous
- Easy to hold a specific RPM
- No coasting periods
- Trainer flywheel affects pedal feel
- ERG mode may encourage a stable cadence
- Heat can increase perceived effort
Variable and terrain-dependent
- Changes with gradient and wind
- Coasting interrupts the average
- More frequent accelerations
- Road surface affects rhythm
- Gear selection changes continuously
Cadence in ERG mode
In ERG mode, the trainer adjusts resistance to maintain the target power. If cadence decreases, resistance rises so that power remains constant. This can create an ERG spiral in which falling cadence causes increasing resistance, making cadence fall even further.
Shift cadence gradually rather than suddenly. When you want to reduce cadence, prepare for the increase in pedal resistance and avoid waiting until your legs are already fatigued.
Can Cycling Cadence Affect Knee Pain?
Riding at very low cadence and high power increases the force required during each pedal stroke. For some cyclists, repeatedly grinding a hard gear may aggravate discomfort.
Increasing cadence slightly and selecting an easier gear can reduce pedal force, but cadence is only one possible factor. Saddle height, saddle position, cleat alignment, training progression, previous injury and total workload can all contribute to pain.
Ongoing or worsening knee pain should not be managed only by changing cadence. Review bike fit and training load, and seek assessment from an appropriately qualified healthcare professional when necessary.
How to Measure Cycling Cadence
Many modern bikes, trainers and power meters can transmit cadence directly to a bike computer, watch or training application.
| Method | How it works | Best use |
|---|---|---|
| Cadence sensor | Detects crank rotation and transmits RPM | Affordable cadence measurement |
| Power meter | Many pedal, crank and spider systems also report cadence | Combining cadence with power data |
| Smart trainer | Estimates or measures cadence during indoor riding | Structured indoor sessions |
| Manual counting | Count one leg for a set period and convert to RPM | Occasional checks without a sensor |
How to calculate cadence manually
Count how many times one knee reaches the top of the pedal stroke during 15 seconds, then multiply the number by four.
Revolutions counted over 15 seconds × 4 = RPM
If your right knee reaches the top of the stroke 22 times in 15 seconds:
22 × 4 = 88 RPM
How to Find Your Best Cadence
Your most suitable cadence should be determined across repeated rides rather than one short experiment. Start with your naturally selected cadence, then compare how small changes affect power, heart rate and muscular fatigue.
Record your natural cadence
Complete several normal endurance rides without forcing a target and identify the cadence you select on flat roads.
Compare nearby cadences
At the same steady power, ride short blocks approximately five RPM below and above your normal cadence.
Monitor your response
Compare heart rate, breathing, leg pressure, saddle stability and perceived exertion.
Test longer durations
A cadence that feels excellent for five minutes may create unnecessary fatigue after two hours.
Confirm it in race position
Triathletes should test cadence while using aerobars because hip angle and body position can change pedalling comfort.
Your goal is not to discover one perfect number. Develop a comfortable working range and the ability to pedal smoothly above and below it.
Cycling Cadence Drills and Workouts
Cadence drills can improve coordination and make you more adaptable. They should support your normal cycling training rather than dominate it.
Cadence ladder
30–45 min- 10 minutes easy warm-up
- 3 minutes at 80 RPM
- 3 minutes at 85 RPM
- 3 minutes at 90 RPM
- 3 minutes at 95 RPM
- Repeat once at easy endurance power
High-cadence spin-ups
6–8 reps- Begin at your normal cadence
- Increase smoothly for 20–30 seconds
- Stop before bouncing in the saddle
- Recover easily for 90 seconds
- Keep resistance relatively light
Low-cadence endurance
4 × 5 min- Ride at upper Zone 2 or low tempo power
- Hold approximately 55–70 RPM
- Remain seated and controlled
- Recover for 3 minutes at normal cadence
- Stop if joint discomfort develops
Triathlon cadence brick
60–120 min- Ride mainly at planned race cadence
- Use the final 5 minutes at slightly lighter pressure
- Transition directly to an easy run
- Record how the opening run feels
- Repeat with small cadence adjustments
High-cadence spin-up technique
A spin-up is not a maximum-power sprint. Use an easy gear and gradually increase cadence while keeping your upper body relaxed.
End the repetition when your hips begin bouncing or your pedal stroke loses control. The objective is smoothness, not reaching the highest possible number.
Low-cadence training
Low-cadence intervals are sometimes used to increase muscular demand at a controlled cardiovascular intensity. They are usually performed seated with relatively high pedal resistance.
These sessions should not be confused with traditional strength training. They may develop cycling-specific muscular endurance, but they do not replace appropriately programmed resistance exercise.
Avoid maximal power and extremely low cadence during these intervals. Begin conservatively, maintain good alignment and stop if you experience knee, hip or back pain.
How to Become Comfortable at Higher Cadence
Riders who naturally pedal slowly may initially bounce or lose control when cadence increases. Coordination normally improves through short, frequent practice.
Build high-cadence control gradually
Week 1: Find the limit
Complete six 20-second spin-ups and stop each repetition as soon as your hips begin bouncing.
Week 2: Extend control
Complete six 30-second repetitions at a cadence slightly below your previous limit.
Week 3: Add sustained blocks
Complete four two-minute blocks approximately 5–10 RPM above your normal endurance cadence.
Week 4: Use varied cadence
Alternate five-minute endurance blocks at your normal cadence and approximately five RPM higher.
Maintain easy or moderate power during these drills. Increasing cadence and power simultaneously makes it difficult to determine whether the challenge comes from coordination or intensity.
Common Cycling Cadence Mistakes
Forcing exactly 90 RPM
Ninety RPM is a common cadence, not a physiological requirement. Allow your cadence to vary with terrain and intensity.
Using cadence without power
Ninety RPM in a very easy gear is not equivalent to 90 RPM at threshold power. Always consider workload.
Grinding every climb
Shift before cadence collapses rather than repeatedly forcing a large gear at high power.
Spinning faster than you can control
Bouncing in the saddle indicates that cadence has exceeded your current coordination ability.
Changing cadence suddenly in ERG mode
Rapid cadence reductions can trigger a large resistance increase and make the interval unnecessarily difficult.
Copying professional riders
Professional cyclists use cadences that reflect exceptional power, speed, training history and event demands.
Ignoring bike fit
A cadence problem may actually come from an unsuitable saddle position, crank setup or cleat alignment.
Frequently Asked Questions
Is 90 RPM the ideal cycling cadence?
No single cadence is ideal for every cyclist. Ninety RPM is a common and practical reference point, but your best cadence depends on power, terrain, experience and individual preference.
Is a higher cadence always better?
No. A higher cadence reduces force per pedal stroke but may increase cardiovascular and coordination demands. Pedalling faster than necessary can waste energy.
Is 70 RPM too low?
Not necessarily. Seventy RPM can be appropriate during climbing, deliberate low-cadence training or for riders who naturally prefer a slower cadence. It may become problematic when combined with high power for long periods or when it causes discomfort.
Is 100 RPM too high?
Not when it feels smooth and supports the required power. One hundred RPM is common during high-intensity efforts and fast riding, but it may be unnecessarily demanding during easy endurance cycling.
What cadence should beginners use?
Beginners can start by selecting a comfortable gear that produces approximately 75–90 RPM on flat roads. The priority is smooth pedalling and avoiding an excessively heavy gear.
What cadence should I use for Zone 2 cycling?
Many cyclists naturally ride Zone 2 at approximately 80–95 RPM. Use the cadence that allows you to maintain controlled power and breathing without excessive leg fatigue.
What cadence should I use during an Ironman?
Many age-group triathletes race around 80–95 RPM, but there is no universal Ironman cadence. Test your preferred range during long race-pace rides and brick sessions.
Does low cadence build strength?
Low-cadence cycling increases force per pedal stroke and can provide a muscular endurance stimulus. It does not fully replace resistance training for developing maximal strength.
Why do I bounce at high cadence?
Bouncing normally occurs when your leg speed exceeds your current coordination, or when bike fit makes it difficult to remain stable. Reduce cadence slightly and practise short controlled spin-ups.
Should cadence remain constant throughout a ride?
No. Cadence naturally changes with gradient, speed, power, fatigue and gear selection. The goal is controlled variation rather than one fixed number.
Final Takeaway
Cycling cadence is the number of pedal revolutions completed each minute. Most recreational cyclists and triathletes complete much of their steady riding somewhere around 80–95 RPM, but this is a broad practical range rather than a rule.
Lower cadence increases the force required from each pedal stroke. Higher cadence reduces force per stroke but increases leg speed and can raise cardiovascular demand. The most suitable cadence balances these demands while allowing you to maintain the required power comfortably.
Do not search for one perfect RPM. Develop a comfortable cadence range, practise riding smoothly above and below it and choose the cadence that matches the terrain, intensity and purpose of the session.
Research does not identify one universally optimal cycling cadence. Metabolic efficiency, muscular loading, power output, rider experience and task demands can favour different cadences in different situations.
